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Journal of Integrative Agriculture  2015, Vol. 14 Issue (5): 984-987    DOI: 10.1016/S2095-3119(14)60911-4
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Complete genome sequence analysis of two Citrus tatter leaf virus (CTLV) isolates from China
 SONG Zhen, LI Zhong-an, LIU Ke-hong, ZHOU Chang-yong
Citrus Research Institute, Southwest University/Chinese Academy of Agricultural Sciences, Chongqing 400712, P.R.China
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摘要  In order to understand molecular characterization of Citrus tatter leaf virus (CTLV) isolated from China, full-length cDNAs of CTLV-MTH and CTLV-XHC from Citrus reticulata and Citrus sinensis were cloned and sequenced based on whole-genome amplification by RT-PCR. The complete nucleotide sequences of CTLV-MTH and CTLV-XHC were determined to be 6 497 nucleotides in length and shared 79.9–91.0% and 78.8–98.0% nucleotide sequence identity, respectively, with other Apple stem grooving virus (ASGV) or CTLV strains available in GenBank. Unexpectedly, CTLV-MTH showed the highest nucleotide sequence identity (91%) with an apple isolate of ASGV, followed by 86.5% with ASGV-HH and 85.7% with ASGV-CHN. Furthermore, CTLV-MTH and three ASGV strains were grouped to a separate cluster in the phylogenetic tree, suggesting it has a closer relationship to ASGV than to CTLV. Therefore, it can be concluded roughly that CTLV may be not a distinct strains of ASGV. We proposed that Citrus tatter leaf virus should be renamed Apple stem grooving virus.

Abstract  In order to understand molecular characterization of Citrus tatter leaf virus (CTLV) isolated from China, full-length cDNAs of CTLV-MTH and CTLV-XHC from Citrus reticulata and Citrus sinensis were cloned and sequenced based on whole-genome amplification by RT-PCR. The complete nucleotide sequences of CTLV-MTH and CTLV-XHC were determined to be 6 497 nucleotides in length and shared 79.9–91.0% and 78.8–98.0% nucleotide sequence identity, respectively, with other Apple stem grooving virus (ASGV) or CTLV strains available in GenBank. Unexpectedly, CTLV-MTH showed the highest nucleotide sequence identity (91%) with an apple isolate of ASGV, followed by 86.5% with ASGV-HH and 85.7% with ASGV-CHN. Furthermore, CTLV-MTH and three ASGV strains were grouped to a separate cluster in the phylogenetic tree, suggesting it has a closer relationship to ASGV than to CTLV. Therefore, it can be concluded roughly that CTLV may be not a distinct strains of ASGV. We proposed that Citrus tatter leaf virus should be renamed Apple stem grooving virus.
Keywords:  Citrus tatter leaf virus       Apple stem grooving virus       phylogenetic analysis       genome  
Received: 08 August 2014   Accepted:
Fund: 

This work was supported by the Special Fund for Agro-Scientific Research in the Public Interest of China (201203076), the 111 Project, China (B12006), the Fundamental Research Funds for the Central Universities, China (XDJK2013C161, SWU113097), and the Basic and Frontier Research Programs of Chongqing, China (CSTC2014jcyjA80033).

Corresponding Authors:  ZHOU Chang-yong, Tel: +86-23-68349601,E-mail: zhoucy@cric.cn     E-mail:  zhoucy@cric.cn
About author:  SONG Zhen, Tel: +86-23-68349017, E-mail: songzhen@cric.cn;

Cite this article: 

SONG Zhen, LI Zhong-an, LIU Ke-hong, ZHOU Chang-yong. 2015. Complete genome sequence analysis of two Citrus tatter leaf virus (CTLV) isolates from China. Journal of Integrative Agriculture, 14(5): 984-987.

Broadbent P, Dephoff C, Gilkeson C. 1994. Detection of Citrustatter leaf virus in Australia. Australasian Plant Pathology,23, 20-24

Fajinmi A, Fajinmi O, Amusa N. 2011. An overview of citrus virusdisease and its control in Nigeria. Journal of Advances inDevelopmental Research, 2, 151-157

da Graca J. 1977. Citrus tatter leaf virus in South African Meyerlemon. Citrus and Subtropic Fruit Journal, 529, 18.

Iwanami T, Kano T, Koizumi M. 1991. Pathogenic diversityof Citrus tatter leaf virus isolates. Annals of the PlantPathological Society of Japan, 57, 74.

Kawai A, Tsukamoto T, Namba S, Nishio T. 1996. Citrus tatterleaf virus: A review of its properties and the developmentof a serological detection system. In: Proceedings of theThirteen Conference of the International Organization ofCitrus Virologist. IOCV, River-side. pp. 339-342

King A M Q, Lefkowitz E, Adams M J, Carstens E B. 2011. VirusTaxonomy: Ninth Report of the International Committee onTaxonomy of Viruses. Elsevier, London.

Komatsu K, Hirata H, Fukagawa T, Yamaji Y, Okano Y,Ishikawa K, Adachi T, Maejima K, Hashimoto M, NambaS. 2012. Infection of Capilloviruses requires subgenomicRNAs whose transcription is controlled by promoter-likesequences conserved among flexiviruses. Virus Research,167, 8.

Martelli G P, Adams M J, Kreuze J F, Dolja V V. 2007. FamilyFlexiviridae: A case study in virion and genome plasticity.Annual Review of Phytopathology, 45, 73-100

Miyakawa T, Matsui C. 1976. A bud-union abnormality ofSatsuma mandarin on Poncirus trifoliata rootstock in Japan.In: Proceedings of the Proceedings of the 7th Conferenceof the International Organization of Citrus Virologist. IOCV,River-side. pp. 125-131

Ohira K, Namba S, Rozanov M, Kusumi T, Tsuchizaki T. 1995.Complete sequence of an infectious full-length cDNA cloneof Citrus tatter leaf capillovirus: Comparative sequenceanalysis of Capillovirus genomes. Journal of GeneralVirology, 76, 2305-2309

Song Z, Liu K H, Yang F Y, Tang K Z, Li Z A, Zhou C Y. 2009.Cloning and sequence analysis of the CP gene of Citrustatter leaf virus. Scientia Agricultura Sinica, 42, 3741-3748(in Chinese)

Tamura K, Peterson D, Peterson N, Stecher G, Nei M, KumarS. 2011. MEGA5: molecular evolutionary genetics analysisusing maximum likelihood, evolutionary distance, andmaximum parsimony methods. Molecular Biology andEvolution, 28, 2731-2739

Tatineni S, Afunian M R, Hilf M E, Gowda S, Dawson W O,Garnsey S M. 2009. Molecular characterization of Citrustatter leaf virus historically associated with Meyer lemontrees: Complete genome sequence and development ofbiologically active in vitro transcripts. Phytopathology, 99,423-431

Wallace J, Drake R. 1962. Tatter leaf, a previously undescribedvirus effect on citrus. Plant Disease Reporter, 46, 211-212
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